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Metrolgia a kobnto 1a/2009 - unms.sk

1a/2009 Digit lny digid lny pyrometer s rie KTRD 1000 a KTRD 1400 Dr. George Maurer, GmbH. OptoelektronikMetrol giaa sk obn ctvoInfra erven pyrometer stav merania SAVS tacion rny pyrometer Keller PAPrenosn pyrometer KellerMiniat rny pyrometer Keller PMOBSAHV skum a V Voj J n Bartl, Vlado Jacko, Roman F raVplyv goniometrick ho usporiadania pri bezkontaktnom meran teploty ..2 J n Vach lek, Pavol Kras ansk , Michal Vajs beVyu itie 3d optick ho kamerov ho syst mu MS Windows Kinect pre potreby manipul cie robotick ho ramena mobiln ho robotick ho syst mu ..7 Martin Koval, Stanislav uri , ubom r oo , Rudolf Palen r, Tom Kopunec, Peter Pavl sek, Michal Vajs bel, Luk uri Meranie deform ci protipovod ov ch z bran.

1a/2009 Digitálny digidálny pyrometer série KTRD 1000 až KTRD 1400 Dr. George Maurer, GmbH. Optoelektronik Metrolgia a kobnto Infračervený pyrometer

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1 1a/2009 Digit lny digid lny pyrometer s rie KTRD 1000 a KTRD 1400 Dr. George Maurer, GmbH. OptoelektronikMetrol giaa sk obn ctvoInfra erven pyrometer stav merania SAVS tacion rny pyrometer Keller PAPrenosn pyrometer KellerMiniat rny pyrometer Keller PMOBSAHV skum a V Voj J n Bartl, Vlado Jacko, Roman F raVplyv goniometrick ho usporiadania pri bezkontaktnom meran teploty ..2 J n Vach lek, Pavol Kras ansk , Michal Vajs beVyu itie 3d optick ho kamerov ho syst mu MS Windows Kinect pre potreby manipul cie robotick ho ramena mobiln ho robotick ho syst mu ..7 Martin Koval, Stanislav uri , ubom r oo , Rudolf Palen r, Tom Kopunec, Peter Pavl sek, Michal Vajs bel, Luk uri Meranie deform ci protipovod ov ch z bran.

2 14 t die a preh ady Monika Barusov Posudzovanie zdravotn ckych pom cok ..18 Jaroslav lveck Preh ad smern c Eur pskeho parlamentu a Rady E pod a Nov ho legislat vneho r mca ..20 Zbyn k Schreier, Peter Obdr lek, Erika Kraslanov Vyhl ka NMS SR . 419/2013 Z. z. o spotrebite skom balen ..22 INFoRm CIE Wladimir Sabuga, Dominik Pra k, Miroslav ChytilSpolo n eur psky v skumn projekt Metrol gia vysok ho tlaku pre priemyseln aplik cie ..25 Milan Hole ekPreviazanie metrol gie a technickej normaliz cie v Eur pskom metrologickom programe pre inov cie a v skum.

3 26 Dagmar Bo anov V sledky vz jomn ch hodnoten SNAS v roku 2014 ..28 Zbyn k Schreier45. zasadnutie Medzin rodn ho v boru pre tandardiz ciu, metrol giu a certifik ciu lensk ch t tov Spolo enstva nez visl ch t tov ..30 Tom Pet kMetrologick kontrola automatick ch hladinomerov ..33 Stanislav uri 10. jubilejn ro n k konferencie Advanced Mathematical and Computational Tools in Metrology and Testing ..34 Eva Kurekov P desiate v ro ie zalo enia stavu automatiz cie, merania a aplikovanej informatiky na Strojn ckej fakulte STU ..35 Katar na Sokolov Odovzd vanie ceny J.

4 W. Kempelena ..37 Ivan Mikuleck Prof. Ing. Matej B l , DrSc..39 CONTENTSREsEaRCh aNd dEVElopmENt J n Bartl, Vlado Jacko, Roman F raInfluence of goniometric arrangement at the contactless temperature measurement .. 2 J n Vach lek, Pavol Kras ansk , Michal Vajs beCollision-free manipulation of a robotic arm using the MS Windows Kinect 3d optical system .. 7 Martin Koval, Stanislav uri , ubom r oo , Rudolf Palen r, Tom Kopunec, Peter Pavl sek, Michal Vajs bel, Luk uri Measurement of deformation of flood defenses ..14essays and surveys Monika Barusov Evaluation of medical devices.

5 18 Jaroslav lveck Overview of the directives of the European Parliament and of the Council according to the New legislative frame ..20 Zbyn k Schreier, Peter Obdr lek, Erika Kraslanov Regulation of the SOSMT No. 419/2013 Coll. On consumer package ..22 INFoRmatIoN Wladimir Sabuga, Dominik Pra k, Miroslav ChytilCommon European research project High Pressure Metrology for Industrial Applications ..25 Milan Hole ekLinkage between metrology and standardization in the European Metrology Programme for Innovation and Research ..26 Dagmar Bo anov Mutual SNAS evaluations results in 2014.

6 28 Zbyn k Schreier45th Meeting of the Interstate Council on Standardization, Metrology, and Certification of the CIS State Members ..30 Tom Pet kMetrology control of an automatic reservoir level gauge ..33 Stanislav uri The 10th jubilee year of the conference of Advanced Mathe- matical and Computational Tools in Metrology and Testing ..34 Eva Kurekov The 50th anniversary of foundation of the Institute of automation, measurement and applied informatics of the Faculty of Mechanical Engineering of the Slovak University of Technology ..35 Katar na Sokolov Johann Wolfgang Kempelen testing award ceremony 2013.

7 37 Ivan Mikuleck Prof. Ing. Matej B l , DrSc..392 Metrol gia a sk obn ctvo 2014V s k u m a V V o j1 Basic principles of radiation All objects continuously emit and absorb the thermal ra-diation. In accordance with the conservation energy law it follows that the incident radiant power onto object must be equal to the sum of the absorbed, transmitted and reflected power. This can be characterized by the relation: + + = 1 (1)where absorption, the ratio of absorbed radiation power to incident power; is the transmittance of the object, the ratio of the transmitted power to the incident power and is the reflectance of object surface, the ratio of reflected power to the incident power.

8 If we consider the opaque ob-jects only, then = 0, and from an equation (1) it follows: = 1 (2)Since the absorption cannot be greater than unity, the ab-sorbed power is maximal for the perfect absorber, the so-cal-led black body. For worse absorbers, the absorption is lower that 1. At the thermodynamic equilibrium the power radiated from the unit area of radiating body must be equal to the power absorbed by the same area unit. For the characteri-zation of the radiating properties of real bodies, we use an emissivity (T), which is generally the ratio of power emitted by the unit area of real object to the power emitted by the unit area of black body.

9 Provided the opaque object ( = 0) is in thermodynamic equilibrium, we get: (T) = (T) (3)Equation (3) is the consequence of Kirchoff s law of thermal radiation [1]. For the black body the value of is equal to 1. In accordance with Lambert s law, the radiant intensity I from small area element dA depends on the cosine elevation angle , I = In cos . Intensity I is the radiant power (ra-diant flux) d emitted by a source into a solid angle d , : Z) dId .Radiance L is defined as the radiation power emitted by the area element dA of the source into the solid angle element d in the given direction (see Fig.

10 1). It follows: 2cos cosdIdLd dAdA--Z--) (4)For cosine sources (diffusive surfaces), the radiance L = Ln, the radiance is independent on the direction in which it is measured. This is well-known Lambert s law. Although Lambert s law is a good approximation for many technical sources, there are many surfaces for which equation (4) is not valid, the radiance varies with angle . The normal emissivity n(T) is usually used in practical applications. The n(T) is a ratio of radiance Ln of the real radiant source in normal direction to the radiance Lo of the black body (the INFLUENCE OF GONIOMETRIC ARRANGEMENT AT THE CONTACTLESS TEMPERATURE MEASUREMENTJ n Bartl, Vlado Jacko, Roman F raAbstractWhile performing some technological operations, coupled with the contactless temperature measurement, e.


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